Aluminum ingot

Abstract

The utility model relates to the technical field of spiral conveyors, in particular to an aluminum ingot. According to the aluminum ingot, the pair of grooves is formed in the two sides of the aluminum ingot body, binding bands can be conveniently placed in the stacking process, therefore, the adjacent aluminum ingots are fixed, relative sliding in the stacking process is reduced, and the stability of the whole stacking structure is remarkably improved. Due to the design of the groove, the binding band can more tightly fix the aluminum ingot, due to the limiting effect of the groove on the binding band, the friction force between the binding band and the aluminum ingot is greatly increased, sliding of the binding band is effectively prevented, and the fixing effect is enhanced. The limiting blocks on the tops of the aluminum ingots correspond to the clamping grooves in the bottoms of the aluminum ingots, accurate limiting can be achieved when the aluminum ingots are stacked in a staggered mode, the bundling operation process is simplified, and the bundling efficiency is improved. Due to the fact that the aluminum ingots are fixed more firmly, the stacked aluminum ingots are not prone to displacement even if the aluminum ingots are bumped or vibrated in the transportation process, and therefore the safety risk in the transportation process is reduced.

Description

TECHNICAL FIELD

[0001] The utility model relates to spiral conveyer technical field, concretely relates to a kind of aluminium ingot. BACKGROUND

[0002] In the existing aluminum processing industry, aluminum ingot is widely used in various fields as a basic raw material. Aluminum ingot is usually stored and transported in a stacked form during manufacturing to improve space utilization and facilitate management. However, traditional aluminum ingot design has some problems during stacking and handling.

[0003] Traditional aluminum ingot structure is simple, usually a solid block, and the design of its two sides and top does not consider how to improve stability during stacking. Therefore, when multiple aluminum ingots are stacked together, due to the lack of effective fixing and limiting structure, relative sliding between aluminum ingots easily occurs, resulting in unstable stacking structure. This instability not only increases the safety risk during handling, but also may cause damage to aluminum ingot during transportation, affecting product quality.

[0004] In addition, the existing aluminum ingot is usually fixed by wrapping a strap around the entire aluminum ingot during bundling. Although this bundling method can fix the aluminum ingot to some extent, due to the smooth surface of the aluminum ingot, the friction between the strap and the aluminum ingot is insufficient, which easily causes the strap to slide, making the fixing effect unsatisfactory. SUMMARY

[0005] To solve the above problems, the utility model discloses an aluminum ingot.

[0006] To achieve the above purpose, the present application discloses an aluminum ingot, which comprises an aluminum ingot body, a pair of grooves is arranged on both sides of the aluminum ingot body, a clamping groove is formed in the bottom of the aluminum ingot body, and a limiting block corresponding to the two ends of the clamping groove in the length direction is arranged on the top of the aluminum ingot body.

[0007] Two positioning grooves are formed on the clamping groove, and the width of the two positioning grooves matches the width of the grooves on the aluminum ingot body.

[0008] The bottom surface of the positioning groove is consistent with the bottom surface of the clamping groove.

[0009] A plurality of sawtooth structures are formed in the grooves along the length direction.

[0010] A partition groove is arranged on the middle and both sides of the aluminum ingot body.

[0011] This application utilizes a pair of grooves on both sides of the aluminum ingot body to facilitate the placement of straps during stacking, thereby securing adjacent ingots, reducing relative slippage during stacking, and significantly improving the stability of the entire stacking structure. The groove design allows the straps to secure the ingots more tightly. Due to the grooves' restrictive effect on the straps, the friction between the straps and the ingots is greatly increased, effectively preventing slippage and enhancing the securing effect. The limiting block at the top of the ingot corresponds to the slot at the bottom, enabling precise positioning during staggered stacking, simplifying the bundling process and improving bundling efficiency. Because the ingots are more firmly secured, even when encountering bumps or vibrations during transportation, the stacked ingots are less prone to displacement, thus reducing safety risks during transport. Attached Figure Description

[0012] Figure 1 This is a schematic diagram of the structure of the aluminum ingot body in the embodiments of this application;

[0013] Figure 2 This is a schematic diagram of the bottom structure of the aluminum ingot body in an embodiment of this application;

[0014] Figure 3 This is a schematic diagram of the main structure of the aluminum ingot from another angle in an embodiment of this application. Detailed Implementation

[0015] The present invention will be further illustrated below with reference to specific embodiments. It should be understood that the following specific embodiments are for illustrative purposes only and are not intended to limit the scope of the present invention. It should be noted that the terms "front," "rear," "left," "right," "up," and "down" used in the following description refer to the directions in the accompanying drawings, and the terms "inner" and "outer" refer to the directions toward or away from the geometric center of a specific component, respectively.

[0016] Example 1: As Figure 1 As shown, an aluminum ingot includes an aluminum ingot body 1. A pair of grooves 2 are respectively provided on both sides of the aluminum ingot body 1, and a slot 3 is provided at the bottom of the aluminum ingot body 1. Limiting blocks 4, corresponding to the two ends of the slot 3 along the length of the slot 3, are respectively provided on the top of the aluminum ingot body 1. The grooves 2 facilitate the placement of straps for binding the aluminum ingot bodies 1 when they are vertically stacked. Simultaneously, when the aluminum ingot bodies 1 are vertically stacked, the limiting blocks 4 can engage in the slot 3 to limit the movement of the two aluminum ingot bodies 1, making them more stable.

[0017] In a specific scheme, the cross-sectional shape of the groove 2 can be semicircular, rectangular or semi-elliptical, etc. Taking the semicircular shape as an example, the radius can be set in the range of 2-5 centimeters. The depth of the groove 2 is 3-8 centimeters, uniformly distributed along the length direction of the aluminum ingot body 1, and the distance between the two ends of the groove 2 and the end face of the aluminum ingot body 1 is kept a certain safety distance, such as 5-10 centimeters, to prevent the band from slipping off when using the band to bundle. Such groove 2 structure facilitates the placement of the band used to bundle the aluminum ingot body 1 in the grooves 2 on both sides when the aluminum ingot bodies 1 are stacked vertically. The band can be made of high-strength nylon or steel, with a width of 3-6 centimeters, which is suitable for the size of the groove 2. By limiting the groove 2, the band can tightly fit the side of the aluminum ingot, effectively fixing the stacked aluminum ingots and preventing them from spreading during transportation.

[0018] The cross-sectional shape of the clamping groove 3 is matched with the limiting block 4, which can be dovetail groove shape, T shape, etc. Taking the dovetail groove shape as an example, the dovetail groove head width of the clamping groove 3 is 4-8 centimeters, the tail width is 6-10 centimeters, and the depth is 2-5 centimeters, which penetrates along the width direction of the aluminum ingot body 1.

[0019] The top of the aluminum ingot body 1 is provided with a limiting block 4 corresponding to the two ends of the clamping groove 3 in the length direction, and the size of the limiting block 4 is slightly smaller than that of the clamping groove 3, so that it can be smoothly inserted and at the same time has a certain friction force to maintain the stability of the connection. The height of the limiting block 4 is 3-6 centimeters, which can be accurately clamped into the clamping groove 3 when the aluminum ingot bodies 1 are stacked vertically, limiting the relative position of two adjacent aluminum ingot bodies 1 in the vertical direction, preventing the aluminum ingots from shifting due to external factors such as shaking and collision after stacking, so that the stacking structure is more stable.

[0020] Two positioning grooves 5 are provided on the clamping groove 3, and the width of the two positioning grooves 5 is matched with the width of the groove 2 on the aluminum ingot body 1, so as to clamp the positioning grooves 5 into the groove 2 on the aluminum ingot body 1 to limit the two when interlaced stacking. Specifically, the groove 2 is located close to the two ends of the clamping groove 3 and is aligned with the groove 2 in the vertical direction. When interlaced stacking is performed, the positioning groove 5 of the upper layer aluminum ingot can be clamped into the groove 2 of the lower layer aluminum ingot body 1, which can constrain the adjacent two layers of aluminum ingots from horizontal sliding and movement.

[0021] The bottom surface of the positioning groove 5 is consistent with the bottom surface of the clamping groove 3. The positioning groove 5 is located on the clamping groove 3 of the aluminum ingot body 1 and is consistent with the height of the bottom surface of the clamping groove 3. Since the bottom surface of the positioning groove 5 is consistent with the height of the bottom surface of the clamping groove 3, it ensures that the positioning groove 5 of the upper layer aluminum ingot can be directly connected with the groove 2 of the lower layer aluminum ingot when stacking the aluminum ingots, without the need for height adjustment, improving the accuracy and efficiency of stacking.

[0022] Example 2: Figure 2 As shown, the groove 2 has multiple serrated structures 6 along its length to increase the friction between the aluminum ingot body 1 and the binding strap when binding it. The serrated structures 6 can be raised triangles, rectangles, or other polygons with sharp edges or a certain degree of roughness. When the binding strap passes through the groove 2, the serrated structures 6 create more contact points with the strap surface, significantly increasing the friction between the strap and the aluminum ingot. This increased friction helps prevent the strap from slipping on the aluminum ingot surface, thus maintaining the stability of the binding.

[0023] Example 3: As Figure 1 and 3 As shown, the aluminum ingot body 1 is provided with partition grooves 7 in the middle and on both sides, so that the aluminum ingot body 1 can be broken in the middle and on both sides during actual processing and use.

[0024] The dividing groove 7 can be a recess, slit, or other form of weakening structure, with sufficient depth and width to accommodate cutting tools, such as saw blades, for easy cutting. The presence of the dividing groove 7 facilitates the cutting of aluminum ingots because, as predetermined break points, it reduces the force and time required for cutting. Cutting tools can more easily enter the dividing groove 7, thereby improving efficiency and accuracy during processing.

[0025] The technical means disclosed in this utility model are not limited to those disclosed in the above embodiments, but also include technical solutions composed of any combination of the above technical features. It should be noted that those skilled in the art can make various improvements and modifications without departing from the principle of this utility model, and these improvements and modifications are also considered within the scope of protection of this utility model.

Claims

1. An aluminum ingot characterized by, The aluminum ingot body (1) is provided with a pair of grooves (2) on both sides, a clamping groove (3) is arranged at the bottom of the aluminum ingot body (1), and a limiting block (4) corresponding to the two sides of the length direction of the clamping groove (3) is arranged at the top of the aluminum ingot body (1) corresponding to the two ends of the clamping groove (3).

2. The aluminum ingot of claim 1, wherein Two positioning grooves (5) are arranged on the clamping groove (3), and the width of the two positioning grooves (5) is matched with the width of the groove (2) on the aluminum ingot body (1).

3. The aluminum ingot of claim 2, wherein The bottom surface of the positioning groove (5) is consistent with the bottom surface of the clamping groove (3).

4. The aluminum ingot of claim 1, wherein A plurality of sawtooth structures (6) are arranged in the length direction of the groove (2) in the groove (2).

5. The aluminum ingot of claim 1, wherein The middle part and both sides of the aluminum ingot body are respectively provided with a separation groove (7).

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